• Advance next‑generation pump and compressor solutions: Drive the full development cycle from blank-sheet research to detailed sizing, CAD, and structural analysis.
• Bring research to reality: Transition theoretical concepts rapidly into physical hardware.
• Take full ownership of your prototypes by performing hands-on integration, assembly, and rigorous testing on our test stands to validate performance in challenging aerospace environments.
• Innovate our workflow: Drive AI and automated design approaches (e.g. using Python/MATLAB) to streamline the sizing of the equipment, eliminating repetitive tasks so you can focus on true technical innovation.
• Ensure that even the most novel and performant designs are strictly balanced with Design-to-Cost (DtC) and manufacturability.

• Define electronic subsystem concepts and architectures (power tree, interfaces, protection concepts, derating mindset)
• Translate system needs into clear hardware requirements and verification objectives (and keep documentation tidy and usable)
• Collaborate closely with mechanical, test, and embedded/software teams to ensure smooth system integration

• Own schematic capture for mixed-signal and power electronics:
• Sensor front-ends (pressure, temperature, position), ADC interfaces, signal conditioning
• Power stages (DC/DC conversion, protection, power distribution, load switching)
• Driver stages (solenoids/actuators; motor-control-adjacent circuitry is a plus)
• Component selection with attention to availability, reliability, and lifetime

• Perform circuit analysis and simulation where appropriate (e.g., SPICE) to de-risk designs
• Worst-case thinking: tolerances, thermal considerations, losses, stability, and protection behavior

• Provide layout guidance to the PCB designer (stackup constraints, grounding strategy, return paths, isolation/clearances, test points)
• Review layout from an electrical/EMI/signal-integrity perspective (you won’t be the one routing boards)

• Prototype bring-up, debugging, and systematic bench testing
• Define test procedures, capture results, and feed improvements back into the next iteration
• Support the build-up of more advanced test capabilities over time (including future EMI/EMC pre-compliance as the lab evolves)

• Maintain clear engineering documentation: requirements, design decisions, schematics/BoM notes, test plans, and test reports
• Contribute to design reviews and milestone documentation

• Degree in Electrical Engineering / Mechatronics / Embedded Systems (or equivalent practical experience) 
• Strong hands-on background in electronics development and lab testing 
• Confident in schematic capture and mixed-signal + power electronics fundamentals 
• Electronics Simulation (SPICE/LTspice)
• Comfortable with core lab equipment (oscilloscope, DMM, power supplies, electronic loads, function generator) 
• Structured engineering mindset: requirements → design → verification 
• Strong technical English (written and spoken) 

Nice-to-have:

• Experience with high-reliability or space-related development (derating, environmental constraints, documentation discipline)
• Motor control / inverter-adjacent hardware experience (gate drivers, current sensing, isolation)
• Familiarity with Altium Designer (or similar), MATLAB/Simulink, Python-based lab automation
• Understanding of EMI/EMC design principles (even if pre-compliance measurements are planned for the future) 

• Your CV
• 2–3 reference projects (e.g. schematics, PCB designs, test setups, failure analyses - anything that demonstrates how you approach engineering challenges and build solutions)

• Assist in conceptual analysis and design trade-offs on robotic mechanisms
• Survey the state of the art in robotic mechanisms to establish what solutions are available
• Contribute to mechanical modeling and structural analysis, using CATIA V5 / 3DEXPERIENCE
• Contribute to the extension of internal Python-based tools used for mechanical design
• Conduct Finite Element Analysis (FEA) and thermal analysis
• Participate in the MAIT (Manufacturing, Assembly, Integration, and Testing) process
• Prepare documentation for the deliverables inside mechanisms-based projects

• Designing parts, assemblies, and creating technical drawings  
• Performing simulations (FEM, CFD)  
• Supporting hardware activities such as inspection, assembly, and testing of newly developed products

• Support project scheduling, milestone tracking, and progress reporting across active programmes.
• Maintain and update project management tools, dashboards, and trackers (e.g. Gantt charts, risk registers, requirements trackers).
• Assist in the preparation and follow-up of programme reviews, kick-off meetings, and customer interactions.
• Support commercial and administrative tasks including tracking of purchase orders, invoices, and work packages in Odoo.
• Contribute to designing and implementing programme management processes, templates, and workflows to support a growing team.
• Contribute to the development and documentation of PM processes and the Project Management Handbook.
• Assist with proposal preparation: work package structuring, schedule development, and costing inputs.
• Help maintain risk and opportunity registers, and support stakeholder alignment activities.
• Support resource planning and interface coordination between business stakeholders and engineering teams.

• Lead Product Assurance activities in complex aerospace projects
• Develop and improve aerospace-compliant quality standards acc. to EN9100
• Perform audits and manage corrective action processes
• Lead quality assurance and control activities
• Own the documentation and analysis of quality metrics
• Collaborate cross-functionally to ensure product excellence
• Championing continuous quality Improvement

• Ensure designs are performant but strictly balanced with Design-to-Cost (DtC) and manufacturability.
• Drive the entire development cycle: Concept, CAD, detailed design, and analysis (FEM/CFD).
• Perform hands-on integration, assembly, and testing to validate your designs.
• Innovate our workflow: You will drive AI and automatized design approaches to eliminate repetitive tasks and focus on technical innovation.
• Build software/scripts to accelerate engineering processes and sizing tools.

• Define platform avionics architecture: OBC, data handling buses (SpaceWire/CAN/100BASE‑T1), time sync (PPS/PTP/1588), mass memory, I/O, power interfaces, RTU strategy
• Own RF/TT&C chain high-level definition (transceiver/TTC units, antennas, link budgets, waveform/SDR choices, ground compatibility)
• Contribute to make/buy decisions on core platform level for OBC, SDR/TT&C, mass memory, DAQ/RTUs, including supplier trade studies, life-cycle & non-recurring impacts, and obsolescence risk
• Set flight software platform direction
• Define and implement mode/state machine architectures, from fluidic systems to orbital vehicles level
• Define interfaces with GNC (data products, timing/latency budgets, execution models) and RPOD logic
• Lead avionics/software sections in proposals: requirements, architecture diagrams, ICDs, work packages, effort & risk, schedule, partner scopes
• Contribute to MBSE models and ways of working
• Define model philosophies for spacecraft platforms
• Support integration and verification activities on subsystem and system level
• Integration & Production support
• Support with other relevant ad-hoc activities.

• Lead thermal architecture on system and subsystem level for versatile multi-orbit spacecraft, starting from system proposals and pre-development phases to detailed definition, to qualification and flight data analysis
• Implement and analyse associated 2D and 3D thermal models (e.g. ESATAN, Systema, Thermal desktop or other standard tools)
• Coordinate with other disciplines and bring a systems vision
• Contribute to MBSE models and ways of working
• Derive and manage thermal requirements
• Support integration and verification activities (TVAC, others) on subsystem and system level
• Identify gaps in thermal components portfolio to enter new markets for active thermal control subsystems and lead maturation of TRL & MRL where necessary
• Support with other relevant ad-hoc activities.